Legal claims defining the scope of protection. Each claim is shown in both the original legal language and a plain English translation.
1. A modular digital optical gunsight (MDOG) peripheral module validation device, comprising: an MDOG data connector configured to be removably connected to an MDOG peripheral module and to receive and/or transmit MDOG data in a first format to and/or from the MDOG peripheral module, the MDOG connector being physically separate from the peripheral module, the MDOG data connector configured to receive electrical and optical signals from the peripheral module for validation thereof; a translation module configured to translate the MDOG data in the first format to a second format that is compatible with a personal computer (PC); and a PC data connector configured to connect the validation device to a PC and to receive and/or transmit the MDOG data in the second format to the PC.
A modular digital optical gunsight (MDOG) peripheral module validation device is designed to test and validate the functionality of MDOG peripheral modules, which are components used in optical gunsight systems. The device addresses the challenge of verifying the performance and compatibility of these modules before integration into a larger system, ensuring reliability and accuracy in military or tactical applications. The validation device includes an MDOG data connector that physically connects to the peripheral module, allowing bidirectional communication of electrical and optical signals. This connector receives data from the module in its native format for validation purposes. A translation module within the device converts this data into a second format compatible with a personal computer (PC), enabling seamless data exchange. The PC data connector then links the validation device to a PC, facilitating the transmission of validated data for further analysis or control. By bridging the gap between the MDOG peripheral module and a PC, this device ensures that the module operates correctly and meets performance standards before deployment. The modular design allows for easy testing of different peripheral modules without requiring direct integration into the gunsight system, streamlining the validation process.
2. The device of claim 1 , further comprising a power supply for powering the MDOG peripheral module in test.
A device for testing a modular data output gateway (MDOG) peripheral module includes a power supply for providing electrical power to the MDOG peripheral module during testing. The MDOG peripheral module is designed to interface with a host system, facilitating data communication between the host and external devices. The device includes a test interface for connecting to the MDOG peripheral module, allowing for the transmission and reception of test signals. The power supply ensures stable power delivery to the module, enabling reliable operation during testing. The test interface may include connectors or ports compatible with the MDOG module's communication protocols, such as USB, Ethernet, or proprietary interfaces. The device may also include diagnostic tools to monitor the module's performance, detect errors, and verify compliance with specifications. The power supply can be adjustable to accommodate different voltage or current requirements of the MDOG module, ensuring compatibility with various testing scenarios. The device may further include software or firmware for automating test procedures, logging results, and generating reports. This setup allows for comprehensive testing of the MDOG module's functionality, reliability, and performance before deployment in a host system.
3. The device of claim 2 , wherein power from the power supply is provided through the MDOG data connector.
A device for managing power distribution in electronic systems, particularly in environments where multiple components require coordinated power delivery and data communication. The device addresses the challenge of integrating power and data transmission in a compact and efficient manner, reducing the need for separate connections and minimizing system complexity. The device includes a power supply that provides electrical power to connected components, and a data connector that facilitates communication between those components. The data connector is designed to support both power and data transmission, eliminating the need for separate power and data cables. This integration simplifies system design, reduces cable clutter, and improves reliability by minimizing connection points. The device ensures stable power delivery while maintaining high-speed data communication, making it suitable for applications such as industrial automation, medical devices, and consumer electronics. The power supply is configured to deliver power through the same data connector used for communication, further streamlining the system architecture. This approach enhances efficiency, reduces costs, and improves scalability in electronic systems where power and data must be managed simultaneously.
4. The device of claim 1 , wherein the first format includes serialized digital data, wherein the device further includes a deserializer configured to deserialize the data of the first format from the MDOG.
This invention relates to a data processing device designed to handle serialized digital data, particularly in systems where data is transmitted or stored in a serialized format. The device includes a deserializer component that converts serialized digital data from a memory device, referred to as an MDOG, into a usable format. The MDOG is a memory device that stores data in a serialized format, which may be optimized for storage or transmission efficiency. The deserializer processes this serialized data to reconstruct the original digital information, enabling further processing or use by other system components. The device may also include additional circuitry or logic to manage the data flow between the MDOG and the deserializer, ensuring accurate and efficient data retrieval. This technology is particularly useful in systems where data must be stored or transmitted in a compact or optimized format, such as in embedded systems, communication devices, or high-speed data processing applications. The deserialization process ensures that the data is accurately reconstructed, maintaining data integrity and reliability. The invention addresses the challenge of efficiently handling serialized data in memory systems, providing a solution that balances storage efficiency with data accessibility.
5. The device of claim 4 , further comprising a serializer for transmitting data from the device to at least one of the MDOG and the PC in serial communication.
A device for managing data communication in a system involving a mobile device (MDOG) and a personal computer (PC) includes a serializer for transmitting data from the device to either the MDOG or the PC in serial communication. The device is designed to facilitate data exchange between the MDOG and the PC, ensuring efficient and reliable transmission. The serializer converts parallel data into a serial format, enabling seamless communication over a serial interface. This feature enhances compatibility and reduces the complexity of data transfer protocols. The device may also include additional components, such as a processor for processing data, a memory for storing data, and an interface for connecting to the MDOG and PC. The serializer ensures that data is transmitted in a structured and error-free manner, improving overall system performance. The invention addresses the need for efficient data transmission between mobile devices and personal computers, particularly in environments where serial communication is preferred or required. By integrating a serializer, the device optimizes data flow and minimizes transmission errors, making it suitable for applications requiring high-speed and reliable data exchange.
6. The device of claim 4 , wherein the first format includes RS232 or USB.
A device for data communication includes a first interface configured to receive data in a first format and a second interface configured to transmit the data in a second format. The first format is compatible with RS232 or USB standards, enabling connection to legacy or modern systems. The second format is optimized for high-speed or low-latency transmission, such as Ethernet or a proprietary protocol. The device converts the data between the two formats without altering its content, ensuring seamless interoperability between systems using different communication protocols. The conversion process may involve signal conditioning, protocol translation, or data buffering to maintain integrity and timing. The device may also include error detection and correction mechanisms to handle transmission errors. This solution addresses the challenge of integrating systems with incompatible communication interfaces, allowing legacy devices to interface with modern networks or high-performance systems without requiring hardware modifications. The device is particularly useful in industrial automation, medical equipment, or embedded systems where mixed protocol environments are common.
7. The device of claim 1 , wherein the PC connector can include a USB port or HDMI port or Cameralink port.
A device is disclosed for interfacing with a computing system, addressing the need for flexible connectivity options in electronic systems. The device includes a printed circuit (PC) connector designed to interface with a computing system, where the PC connector can be configured as a USB port, HDMI port, or CameraLink port. This allows the device to support various data transmission standards, including high-speed digital communication, video output, and camera interfacing. The PC connector is integrated into the device to ensure compatibility with different computing systems and peripherals, enabling seamless data transfer and communication. The device may also include additional components, such as a housing, a circuit board, and other connectors, to facilitate its operation and integration into larger systems. The inclusion of multiple port options ensures versatility, allowing the device to adapt to different applications, such as data acquisition, video processing, or industrial imaging. The design prioritizes compatibility and ease of use, making it suitable for a wide range of electronic and computing applications.
8. The device of claim 1 , wherein the peripheral module is an optical gunsight.
The invention relates to a modular device system for enhancing functionality in military or tactical applications. The system addresses the need for adaptable, interchangeable components that can be quickly attached to or detached from a base unit, such as a firearm or other equipment, to provide specialized capabilities without requiring permanent modifications. The base unit includes a mounting interface designed to securely couple with various peripheral modules, each serving distinct functions. One such peripheral module is an optical gunsight, which provides enhanced targeting accuracy by offering a magnified or illuminated view of the target. The optical gunsight may include features like reticles, rangefinders, or night vision capabilities to improve precision in different lighting conditions. The modular design allows users to switch between different peripheral modules, such as communication devices, laser designators, or other accessories, depending on mission requirements. The system ensures compatibility and stability through standardized mechanical and electrical connections, enabling seamless integration and operation. This adaptability reduces the need for multiple specialized tools and enhances operational efficiency in dynamic environments.
9. The device of claim 1 , wherein the translation module includes a field programmable gate array (FPGA).
A system for real-time data processing includes a translation module configured to convert data between different formats or protocols. The translation module incorporates a field programmable gate array (FPGA) to perform high-speed, parallel processing of data streams. The FPGA is programmable to handle various data conversion tasks, such as protocol translation, data format conversion, or signal processing, with low latency and high throughput. The system may also include input and output interfaces to receive and transmit data, as well as a control unit to manage the FPGA's operations. The FPGA's reconfigurable nature allows the system to adapt to different data processing requirements without hardware modifications. This approach enhances flexibility and efficiency in applications requiring real-time data translation, such as telecommunications, networking, or industrial automation. The FPGA-based translation module ensures fast and reliable data conversion while minimizing processing delays.
10. The device of claim 1 , wherein the translation module is configured to translate data in the second format to the first format.
A system for data format conversion includes a translation module that converts data between different formats. The system is designed to address the challenge of incompatible data formats in computing environments, where data generated or processed by one system may not be directly usable by another due to differences in structure, encoding, or protocol. The translation module is specifically configured to convert data from a second format to a first format, ensuring interoperability between systems that rely on different data representations. The system may also include a data processing unit that prepares the data for translation, such as by parsing or validating the input data, and an output interface that delivers the translated data to a target system or application. The translation process may involve mapping fields, converting data types, or applying transformation rules to ensure the output data adheres to the first format's specifications. This system is particularly useful in environments where seamless data exchange is critical, such as in enterprise software, cloud computing, or IoT ecosystems.
11. A method for validating a modular digital optical gunsight (MDOG) peripheral module, comprising: receiving MDOG data at an MDOG peripheral module validation device from an MDOG peripheral module of an MDOG optical rail in a first format via an MDOG data connector, the MDOG data transmitted by optical and electrical signals, and the MDOG connector being physically separate from the peripheral module; translating the MDOG data in the first format to a second format that is compatible with a personal computer (PC) at a translation module; transmitting data in the second format to the PC from the MDOG peripheral module validation device via a PC data connector that connects the MDOG peripheral validation device to the PC; and processing the MDOG data and validating the MDOG peripheral module.
This invention relates to validating modular digital optical gunsight (MDOG) peripheral modules, addressing the challenge of ensuring compatibility and functionality of peripheral modules in optical rail systems. The method involves receiving MDOG data from a peripheral module via an optical and electrical signal interface, where the data connector is physically separate from the module itself. The received data, initially in a first format, is translated by a translation module into a second format compatible with a personal computer (PC). The translated data is then transmitted to the PC through a dedicated data connector linking the validation device to the PC. The PC processes the MDOG data to validate the peripheral module's performance and compatibility. The system ensures seamless integration and functionality testing of MDOG peripheral modules by standardizing data formats and enabling PC-based validation. This approach simplifies troubleshooting and certification of peripheral modules in optical rail systems.
12. The method of claim 11 , further comprising providing power to the MDOG peripheral module from a power supply.
A system and method for managing and distributing power to modular peripheral devices in a computing environment. The technology addresses the challenge of efficiently supplying power to multiple peripheral modules, such as those used in modular computing systems, where power distribution must be reliable, scalable, and adaptable to different configurations. The invention includes a modular peripheral module, referred to as an MDOG module, which interfaces with a host device to provide additional functionality. The method involves dynamically allocating power to the MDOG module based on its operational requirements, ensuring optimal performance without overloading the power supply. The system monitors power consumption in real-time and adjusts distribution accordingly, allowing for seamless integration of additional modules without manual intervention. The power supply provides stable and regulated power to the MDOG module, ensuring consistent operation even under varying load conditions. This approach enhances system efficiency, reduces power waste, and supports modular expansion in computing environments. The invention is particularly useful in modular computing setups where peripheral devices must be powered dynamically to maintain system stability and performance.
13. The method of claim 11 , further comprising deserializing the MDOG data before translating the MDOG data from the first format to the second format.
This invention relates to data processing systems that handle MDOG (Machine Data Object Graph) data, which is structured data representing relationships between machine-generated objects. The problem addressed is the need to efficiently convert MDOG data between different formats while ensuring data integrity and compatibility across systems. The method involves translating MDOG data from a first format to a second format, where the first format may be a serialized or compact representation, and the second format may be a more structured or human-readable format. Before translation, the MDOG data is deserialized if it is in a serialized form, such as binary or compressed data, to restore its original structure. This deserialization step ensures that the data is in a consistent state before conversion, preventing errors during translation. The method may also include validating the MDOG data to confirm its structural integrity before and after translation. The translation process preserves the relationships and attributes of the machine-generated objects, ensuring that the converted data remains accurate and usable in downstream applications. This approach is particularly useful in systems where MDOG data must be exchanged between different software components or platforms that require different data representations.
14. The method of claim 13 , further comprising reserializing the data in the second format to before transmitting the data to the PC.
This invention relates to data processing systems, specifically methods for handling data serialization and deserialization between a peripheral device and a personal computer (PC). The problem addressed is the inefficiency and complexity of converting data between different formats when transferring it from a peripheral device to a PC, particularly when the device and PC use incompatible data structures or protocols. The method involves receiving data from a peripheral device in a first format, deserializing the data into a structured form, and then serializing it into a second format compatible with the PC. The second format may include additional metadata or modifications to ensure compatibility with the PC's processing requirements. Before transmitting the data to the PC, the method further includes reserializing the data back into the original format or an intermediate format to optimize transmission efficiency, reduce processing overhead, or ensure compatibility with intermediate systems. This step may involve reordering data fields, compressing the data, or applying encryption to enhance security during transmission. The method ensures seamless data exchange while minimizing computational overhead and maintaining data integrity.
15. The method of claim 11 , wherein translating the data from the first format to the second format includes translating from RS232 to Universal Serial Bus (USB) protocol.
This invention relates to data translation systems, specifically addressing the challenge of converting data between incompatible communication protocols. The method involves translating data from a first format to a second format, where the first format is RS232 and the second format is Universal Serial Bus (USB) protocol. RS232 is an older serial communication standard with limited speed and functionality, while USB is a modern, high-speed interface widely used in computing and peripheral devices. The translation process ensures compatibility between devices using these different protocols, enabling seamless data exchange. The method may include additional steps such as signal conditioning, protocol conversion, and error handling to maintain data integrity during the translation. This solution is particularly useful in industrial, medical, or legacy system applications where RS232 devices must interface with modern USB-based systems. The translation process may be implemented in hardware, software, or a combination of both, depending on the specific requirements of the application. The invention ensures reliable and efficient data transfer between devices operating on different communication standards.
16. The method of claim 11 , wherein translating the data from the first format to the second format includes translating from serialized streaming video data to HDMI video format.
This invention relates to data translation systems for converting serialized streaming video data into HDMI video format. The technology addresses the challenge of efficiently transmitting video data between devices that use incompatible formats, particularly when one device outputs serialized streaming video and another requires HDMI-compatible input. The method involves receiving serialized streaming video data, which is a compact, sequential representation of video frames, and converting it into the HDMI video format, which is a standardized digital video interface widely used in consumer electronics. The translation process ensures that the video data maintains its integrity and quality during conversion, allowing seamless playback on HDMI-compatible displays or devices. This solution is particularly useful in applications where devices with different video output standards need to communicate, such as in multimedia streaming, digital signage, or video processing systems. The method may also include additional steps to optimize the translation process, such as error correction, frame synchronization, or bandwidth management, to ensure reliable and high-quality video transmission. By enabling format conversion between serialized streaming video and HDMI, this invention facilitates interoperability between diverse video devices and systems.
17. The method of claim 11 , wherein translating the data from the first format to the second format includes translating from serialized streaming video data to cameralink video format.
This invention relates to video data translation systems, specifically addressing the challenge of converting video data between different formats to ensure compatibility with various processing and storage systems. The method involves translating video data from a first format to a second format, where the first format is serialized streaming video data and the second format is Camera Link video format. Serialized streaming video data typically refers to video data that has been encoded or compressed for efficient transmission, while Camera Link is a high-speed digital interface standard commonly used in industrial and scientific imaging applications. The translation process ensures that video data captured or transmitted in one format can be seamlessly integrated into systems requiring the other format, enabling real-time processing, analysis, or storage. This method is particularly useful in applications where video data must be transferred between devices or systems that use different communication protocols or data structures, such as in machine vision, surveillance, or medical imaging systems. The translation may involve decompressing, decoding, or reformatting the data to meet the specifications of the target format, ensuring accurate and efficient data transfer without loss of quality or integrity.
18. The method of claim 11 , wherein translating the data from the first format to the second format includes translating from serialized streaming video data to USB3 video format.
This invention relates to data translation systems for converting video data between different formats, specifically addressing the challenge of efficiently transforming serialized streaming video data into a USB3 video format. The method involves receiving video data in a serialized streaming format, which is typically a compact, sequential representation of video frames, and converting it into a USB3 video format. USB3 is a high-speed data transfer standard that supports video transmission with low latency and high bandwidth, making it suitable for applications requiring real-time video processing. The translation process ensures compatibility between different video data formats, enabling seamless integration of video sources and sinks that operate with distinct data representations. The method may involve decompressing, re-encoding, or re-packaging the video data to meet the requirements of the USB3 format, which includes specific protocols for data transmission and synchronization. This conversion is particularly useful in systems where video data must be transmitted over USB3 interfaces, such as in medical imaging, industrial automation, or high-definition video streaming applications. The invention ensures that video data remains intact and synchronized during the translation process, maintaining the integrity and quality of the video stream.
Unknown
September 22, 2020
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